Title: Joint Operation Planning and Execution System JOPES 2'7
1Joint Operation Planning and Execution System
(JOPES) 2.7 Â JOPES OVERVIEW The era of single
service operations is gone forever. All
operations since Desert Shield/Desert Storm are
and will be a collected effort of the joint
community. Dwight Eisenhower stated, "Separate
ground, sea, and air warfare is gone forever. If
ever again we should be involved in war, we will
fight it in all elements, with all services, as
one single concentrated effort." The general
population did not realize how prophetic these
words would become in today's military
environment. In the early days of planning, the
DoD had no structured procedure for planning.
Each CINC planned a different way, using
different formats and assumed all Joint military
capabilities would be available for theater
operations. As the need for joint operations
became more of a reality, it became evident that
a standard system was needed. This led to the
development of our current system, The Joint
Operation Planning and Execution System (JOPES).
It is the integrated joint command and control
system used to support military operation
monitoring, planning, and execution (including
theater level distribution) activities. Within
JOPES is the Time Phased Force Deployment Data
(TPFDD). This lesson covers hardware and software
of the system that supports the planning process.
You will learn about the Global Command and
Control System (GCCS) environment. You will learn
why we have the Joint Operation Planning and
Execution System (JOPES), its history, and its
purpose. You will review the planning process for
both deliberate and crisis action planning. With
the implementation of GCCS, the old mainframe
environment has been replaced by the
client/server environment connected together with
high volume network communication systems.
2Jopes 2.7.1
II. TERMS AND DEFINITIONS. A. Global Command
and Control System (GCCS) is an automated
information system designed to support both
deliberate and crisis action planning through an
integrated set of analytical tools and a flexible
data transfer capability. B. Joint Operation
Planning and Execution System (JOPES) is the
integrated joint conventional command and control
system used to support military operation
monitoring, planning, and execution (including
theater-level nuclear and Intelligence (C4I)
system to support the war fighter, whether from a
foxhole or from a command post. The war fighter
can access a widely distributed, user-driven
network for a single view of the military C4I.
GCCS provides the communication connectivity that
supports members of the Joint Planning and
Execution Community (JPEC). From the war
fighters' perspective, this is the technology
that will support their conventional planning and
execution
3Jopes 2.7.2
III. THE GLOBAL COMMAND AND CONTROL SYSTEM (GCCS)
will provide the warfighter a fused picture of
the battlespace. It is an important cornerstone
for the midterm phase of the Command, Control,
Communications, Computers and Intelligence for
the Warrior (C4IFTW) concept. GCCS will have the
capability of meeting warfighter needs well into
the 21st century. It incorporates the core
planning and assessment tools required for the
combatant commanders and subordinate joint force
commanders and it will meet the readiness support
requirements of the Services. GCCS moves the
warfighters joint C2 support capability into the
modern era of open systems architecture by
migrating largely preexisting systems and mission
applications to a command operating environment.
The standards and unifying approach that GCCS has
established are essential for DOD components to
successfully reduce the large number of systems
in use today.
4Jopes 2.7.2.1
Background The World-Wide Military Command and
Control System (WWMCCS), a mainframe system based
on 1970s technology, has long been our "go to
war" command and control system for force
planning and deployment. During the 1980s a
large-scale effort using classical acquisition
strategies was under taken to upgrade the
existing environment with new technologies. The
approach proved cumbersome, while warfighter
needs were increasingly unfulfilled. In
September 1992 the Under Secretary of Defense
(Acquisition), terminated the WWMCCS ADP
Modernization (WAM) Program. He directed that "a
new acquisition approach" be used to fulfill
critical command and control mission needs. The
Assistant Secretary of Defense (C3I) subsequently
established the Global Command and Control System
as the principle migration path for defense-wide
command and control systems, directing that GCCS
rapidly and efficiently deliver to combatant
commanders C2 capabilities through maximum use of
commercial off-the-self and government
off-the-shelf components. Further, he specified
that the program evolves through continuous
requirements refinement process to meet the goal
of providing responsive C2 to combatant
commanders. GCCS has evolved from an initial
baseline of existing C2 components. This baseline
has served as the cornerstone for the rapid
implementation of an initial system capable of
fulfilling the most immediate user requirements
and it will allow the shutdown of WWMCCS. As new
GCCS versions are subsequently fielded,
additional existing legacy systems will be
replaced and secured. The command functional,
physical and operational characteristics of GCCS
are based on a single Common Operating
Environment. All future Joint and Service/CINC
unique mission applications must be compatible
with this COE. We will retain a fully integrated,
single GCCS, with all applications have a common
look and feel.
5Jopes 2.7.2.2
Background The World-Wide Military Command and
Control System (WWMCCS), a mainframe system based
on 1970s technology, has long been our "go to
war" command and control system for force
planning and deployment. During the 1980s a
large-scale effort using classical acquisition
strategies was under taken to upgrade the
existing environment with new technologies. The
approach proved cumbersome, while warfighter
needs were increasingly unfulfilled. In
September 1992 the Under Secretary of Defense
(Acquisition), terminated the WWMCCS ADP
Modernization (WAM) Program. He directed that "a
new acquisition approach" be used to fulfill
critical command and control mission needs. The
Assistant Secretary of Defense (C3I) subsequently
established the Global Command and Control System
as the principle migration path for defense-wide
command and control systems, directing that GCCS
rapidly and efficiently deliver to combatant
commanders C2 capabilities through maximum use of
commercial off-the-self and government
off-the-shelf components. Further, he specified
that the program evolves through continuous
requirements refinement process to meet the goal
of providing responsive C2 to combatant
commanders. GCCS has evolved from an initial
baseline of existing C2 components. This baseline
has served as the cornerstone for the rapid
implementation of an initial system capable of
fulfilling the most immediate user requirements
and it will allow the shutdown of WWMCCS. As new
GCCS versions are subsequently fielded,
additional existing legacy systems will be
replaced and secured. The command functional,
physical and operational characteristics of GCCS
are based on a single Common Operating
Environment. All future Joint and Service/CINC
unique mission applications must be compatible
with this COE. We will retain a fully integrated,
single GCCS, with all applications have a common
look and feel.
6Jopes 2.7.2.3
Using Standard Data The use of standard data
elements is key to any automated system
successes, especially command and control
systems. Using standard data eliminates
redundancies and provide a common base to
facilitate information exchange, reducing time
need to set up a basis for data communication.
One of the results of stovepipe systems within
the DOD was the proliferation of non-homogeneous
databases. Although each system worked adequately
within the particular component for which it was
built, there was no interoperability with other
components. Yet each component had information
that needed to be shared with other components.
The best solution to this untenable suitable is
the use of standard data. The question was where
to start. The Services, combatant commands, and
agencies answered that question by declaring that
GCCS must, at a minimum, provide the same
operational planning functionality that the
WWMCCS provided via the Joint Operation Planning
and Execution System (JOPES). The JOPES data
model encompassed data requirements for many of
the applications that would be included within
GCCS. Clearly, the JOPES data model was the place
to start standardizing data. The Defense
Information System Agency (DISA), acting for the
Joint Staff, quickly developed a plan to approve
over 1200 data standards define in the JOPES data
model. The data standards were divided into nine
logical packages and placed in directories as
candidates for standardization. Data
administrators from pertinent functional areas
analyzed the data for usability, recommended
modifications where needed, and finally declared
the data as meeting approved standards. Future
modifications and enhancements to GCCS and the
other DOD functional area data will use these
approved standards. The DOD had taken an
important step in information exchange
7Jopes 2.7.2.4
GCCS Initial Operating Capability GCCS will,
among other functions, perform Joint command and
control mission essential functions currently
performed on conventional Worldwide Military
Command and Control System (WWMCCS) ADP. GCCS
performance and reliability for those essential
functions will be equal to, or better than,
current WWMCCS ADP. The Joint Staff, Director of
Operations (J3), will declare GCCS initial
operational capability (IOC) when GCCS can
perform those mission essential functions. GCCS
IOC requirements are Testing A Continuous
Process GCCS testing is based on a process of
continuously evaluating the comprehensive system.
DISA, the operational users, and DOD Operational
Test and Evaluation (DOTE) will each evaluate
GCCS to ensure its continued operational
effectiveness and suitability. The testing
process continues to track the progress of GCCS
throughout its integration and installation
phases. It occurs concurrently as additional
functional blocks are added to the system. The
process provides a complete, accurate, and timely
evaluation of the system. The results from the
testing support GCCS in three areas 1.
Providing input on systems/software nominated for
"Best of Breed" selection process 2. Providing
information on how well a candidate system
operates in the GCCS environment, supporting
system integration decisions 3. Providing
feedback to determine satisfaction of user
requirements and facilitate changes to GCCS The
testing process verifies that GCCS meets the
stated requirements of the users, from the
National Command Authority to Joint Task Force
commanders. It ensures that GCCS remains
interoperable and fully integrated.
8Jopes 2.7.2.4.1
"Best of Breed" Mission application software
nominated by a Service, combatant command,
agency, or other DOD entity for inclusion in GCCS
is known as candidate "Best of Breed" software.
Candidates are submitted to functional working
groups or to the System Integration Working Group
(SIWG) for analysis. The functional working
groups identify and prioritize user requirements,
then solicit nominations of existing applications
from the Services, combatant commands, and
agencies to satisfy the requirements. The working
groups evaluate the nominated applications, both
functionally and technically, before recommending
an application to the GCC Review Board. The
General/Flag Officers Advisory Board gives final
approval to "Best of Breed" nominations. The
nominating organization of a selected "Best of
Breed" application will usually remain the
executive agent for that application, ensuring
continuing support and technical expertise for
users of the application.
9JOPES 2.7.2.4.2
Training the Trainer Rapid, responsive and
quality training for GCCS users has been the
challenge and cornerstone to successful
implementation of GCCS. And the United States Air
Forces Air Education and Training Command (AETC)
and Joint Operation Planning and Execution System
(JOPES) Training Organization (JTO) have risen to
that challenge. An 8 August 1994 Memorandum of
Agreement between the Joint Staff and
Headquarters, United States Air Force, designated
the Air Force as the GCCS single service training
manager (SSTM). The SSTM, located at Keesler Air
Force Base, Mississippi, manages resources for
GCCS technical training, including system,
network, database administration, operating
systems, and user training operations. Fixed
classroom sites, mobile training teams, and
documentation are available. Likewise, JTO
located at Scott Air Force Base, Illinois,
manages resources for all JOPES-related training
through fixed classroom sites and mobile training
teams. Technical and JOPES-related training
activities are coordinated through the SSTM and
JTO, respectively both of which are supported by
military, DOD civilian and contractor trainers.
Using a "train the trainer" approach, a cadre of
personnel from each GCCS site receive formal
training and then return to their sites around
the globe to train additional personnel. This
approach ensures an efficient, timely
distribution of GCCS knowledge in harmony with
rapid, nimble GCCS integration efforts.
10Jopes 2.7.2.5
Management Structure The Global Command and
Control (GCC) Management Structure outlines the
structure, responsibilities, and decision flow
process through which GCCS is managed. The GCC
Management Structure is governed by the Chairman,
Joint Chief of Staff Instruction 6721.01 (CJCSI
6721.01). The GCC Review Board, chaired by J6,
reviews requirements and issues, and forwards
those requiring action to the GCC general/flag
officers Advisory Board. The Advisory Board,
chaired by the Joint Staff Director for
Operations (J3), approves new functionalities for
GCCS, resolves issues, and provides the guidance
for requirements, objectives, and
milestones. GCCS Program Management The
Secretary of Defense has directed that resources
must support the initial operating capability of
GCCS and components must program for the
migration of functions from existing C4I systems
to GCCS and DII. Services and agencies must
ensure that GCCS supports combatant commands and
the multi-regional conflict scenario and that it
employs industry-standard specifications wherever
possible. Services and agencies have established
GCCS Program Management Offices (PMOs) to
implement GCCS. PMO responsibilities cover all
Service and agency sponsored commands and
organizations, including Unified Commands and
Combined joint Task Force Commands to the lowest
level requiring GCCS capabilities. GCCS PMOs meet
together frequently to review issues and status.
11JOPES 2.7.2.6
Joint Operation Planning and Execution
System The Joint Operation Planning and
Execution System (JOPES) is the integrated
command and control system used to plan and
execute joint military operations. It is a
combination of joint policies, procedures,
personnel, training and a reporting structure
supported by automated data processing on GCCS.
The capabilities of the JOPES mission
applications support translation of the National
Command Authoritys policy decisions into
planning and execution of joint military
operations. JOPES applications include Requireme
nts Development and Analysis (RDA) creates,
analyzes and edits Time Phase Force and
Deployment Data (TPFDD). Scheduling and Movement
(SM) handles command and control information on
Deployment activity and status. It functions as a
vehicle for the scheduling and Tracking movement
of TPFDD requirements. Logistics Sustainment
Analysis and Feasibility Estimator (LOGSAFE)
assists logistics planners in determining
sustained movement requirements during deliberate
and crisis action planning. Joint Flow and
Analysis System for Transportation (JFAST) is an
analysis tool which provides users the ability to
determine transportation feasibility of an
Operation Plan (OPLAN) or Course of Action
(COA). Joint Engineer Planning and Execution
System (JEPES) provides planners with a method to
determine requirements and/or adequacy of
engineering support provided in OPLANs or
COAs. Medical Planning ad Execution System
(MEPES) provides contingency medical support
information for allocating medical
resources. Non Unit Personnel Generator (NPG)
functions are to assist in determining quantities
of replacement and filler personnel. Ad Hoc
Query (AHQ) provides users with a means to
develop, save, and print tailored queries
extracting data from the JOPES core
database. Systems Support functions as the JOPES
core database management subsystem for functional
managers. Airfields is an information retrieval
application providing the user with the
capability to access, extract, and print
information from the Automated Air Facilities
Information File database.
12JOPES 2.7.2.7
Global Reconnaissance Information System
(GRIS) GRIS supports the planning and scheduling
of monthly sensitive reconnaissance operations
(SRO) theater requests. The Joint Staff staffs
these requests through the office of the
Secretary of Defense, Central Intelligence
Agency, and State Department for National
Security Council approval. Incoming RECON 1/2/3/4
formatted messages are received by an automated
message handling system, validated, and passed to
the GRIS application for automated processing and
database update. GRIS generates all RECON
messages and also monitors the monthly execution
of theater reconnaissance missions approved in
the previous month. GRIS is used by the Joint
Staff and theater commands exercising operational
control (OPCON) over airborne reconnaissance
assets. Evacuation System (EVAC) EVAC collects
and displays information about US citizens
located outside the United States as collected by
US State Department embassies and consulates. It
accesses the database server via TELNET operation
from a GCCS compatible client. Fuel Resources
Analysis System (FRAS) FRAS provides fuel
planners an automated capability for determining
supportability of a deliberate or crisis action
plan and for generating the time-phased bulk
petroleum, oil and lubricants required to support
an OPLAN. FRAS facilitates review of the fuel
requirements of a proposed, new, or revised OPLAN
and assesses adequacy of available resources to
support crisis action planning. Requirements can
be generated and analysis performed for the
overall OPLAN, regions within the OPLAN, by
Service, and within Service by regions. Two or
more OPLANs can be combined into a single OPLAN
for analysis. The requirements generated can be
varied through the use of intensity tables and
consumption data extracted from the Logistics
Factors File (LFF) or with Service-provided data
system.
13JOPES 2.7.2.7.1
Global Status of Resources and Training
(GSORTS) GSORTS provides information on status
of units with respect to personnel, equipment and
training. Query and display capabilities include
categories of units (ships, fighter aircraft,
ground forces, etc.) specific types of units
(frigates, armor battalions, F-15s, etc.) and by
specific unit (displays detailed status
information). Joint Maritime Command Information
System (JMCIS) JMCIS is the foundation for the
GCCS fused operational battlespace picture. It
provides near real-time sea and air tracks. JMCIS
receives input from different systems, and can
interface with other systems. JMCIS uses a core
service, known as unified build, to provide
geographic display, contact correlation, and
track data base management. Theater Analysis and
Replanning Graphical Execution Toolkit
(TARGET) TARGET contains a set of planning tools
designed to support the operational planner
during crisis action procedures. These tools
allow planners and operators to accomplish tasks
through rapid access to required documents,
information sources, analysis tools, multi-media
and teleconferencing tools.
14JOPES 2.7.2.8.1
Joint Deployable Intelligence Support System
(JDISS) JDISS applications provide the
intelligence window to access national, theater,
and tactical intelligence sources though the
joint architecture for intelligence. It provides
connectivity and interoperability with
intelligence systems required to support forces
during peacetime, crisis, and war. JDISS includes
INTELINK at the Secret classification level
(INTELINK-S). It is an intelligence dissemination
service which enhances the sharing of
intelligence information electronically over the
SIPRNET. INTELINK provides intelligence
dissemination using networked information
discovery, retrieval, and browsing services. Its
"point and click" technology makes intelligence
products widely available to both users and
producers of intelligence. Air Tasking Orders
(ATO) ATO provides the capability to view and
print selected portions of air tasking orders. A
query function allows the user to tailor requests
for information contained in a specified order
for viewing. The query function also supports
display of color-coded ground tracks for selected
portions of the order. ATO interfaces with the
Contingency Theater Automated Planning System
(CTAPS).
15JOPES 2.7.2.8
Conclusion The Global Command and Control System
is bringing the C4I for the Warrior vision into
reality and the promise to provide warfighters
with a fused, real-time picture of the
battlespace. Ultimately, GCCS will provide
command and control of our forces across the full
range of military operations and through each
phase of force projection. GCCS gives the
warfighter a highly flexible system capable of
collecting, processing, disseminating and
protecting information to support critical
decision-making and to achieve unity of effort
and command dominance. Interoperability has been
the driving force in implementing GCCS. Common
mission applications, databases, imagery,
teleconferencing and open architecture are key
tenets in providing a single joint Command and
Control system. The system has been designated to
grow to meet the needs of the warfighter of the
future and the challenges of multiple regional
conflicts.